Paper ID #43876Transfer Students’ Experiences, Identity Development, and Outcomes in EngineeringTechnology Programs: A ReviewMs. Ibarre Araojo, Wayne State University Ibarre Araojo is a dedicated Graduate Research Assistant with a specialized focus in Sociology, emphasizing the exploration of the nexus between student performance, retention rates, experiences, and goals, particularly among minority groups. Leveraging a rich background in Information Technology and Education, Araojo undertakes extensive literature reviews to deepen our understanding of these pivotal areas. Armed with a Bachelor of Science in Information
Engineering Technology Students Acquisition of theEngineering IdentityAbstractThis paper presents a work in progress (WIP) for an NSF project examining first-generation (FG)engineering technology (ET) students, focusing on their academic performance, development ofengineering identity, and utilization of social capital in comparison to continuing generation(CG) peers. This project employs a two-phase mixed methods approach. It will evaluate theacademic performance of FG versus CG engineering students while leveraging the theoreticalframeworks of engineering identity development [1] and social capital [2] to explore theirexperiences. The project's aim is to inform the design of a comprehensive program that enhancessupport for engineering technology
provide tactile feedback that is the most relevant mode ofinteraction to facilitate conceptualization. The recent advancement of educational robotics and inparticular the emergence of computer controlled kinesthetic force feedback devices hold thepromise of revolutionary progress in the field of ‘educational haptics’ and provide newopportunities to address the above-mentioned challenges. Haptic (from the Greek ‘haptikos’meaning ‘able to touch’ and ‘haptesthai’, meaning ‘able to lay hold of’) educational devicesprovide force and tactile feedback for a user while interacting with a virtual environment. Amongthe key application areas for haptic technologies has been motor skill training - such as surgicalsimulations – for which high-fidelity, multi
- search faculty member; and Ball AeroSpace, 2004-2005, where he worked as a Mechanical Engineer on mechanism design. Page 25.776.1 c American Society for Engineering Education, 2012 Infusing A Sustainable Green Manufacturing Course into Manufacturing/Mechanical Engineering Technology ProgramAbstractGreen manufacturing is an emerging field in recent years and is also the sustainable developmentmodel for modern manufacturing industries. Sustainable green manufacturing encompasses theconcept of combining technical issues of design and manufacturing, energy conservation,pollution
1 Document 2002-1291 Building the bridge between engineering and engineering technology schools in a telecommunications program Djafar K. Mynbaev New York City Technical College of the City University of New York Department of Electrical Engineering Technology and TelecommunicationsAbstract There is a traditional contradiction between engineering and engineering technologyschools. The former are more theoretically oriented; engineering courses taught at engineeringschools rely heavily on the student’s strong background in physics
thesemethods in improving student engagement and learning outcomes. Our materials and courseplans are informed by these prior works, and we aim to build on their findings by incorporatinginnovative assessment techniques and leveraging technology to enhance student learningexperiences. Future research endeavors will focus on CAD/CAM and further examine thecompetence, engagement, and retention of students as they progress into higher-level engineeringcourses in subsequent years.2. Results:Over the past three semesters, we have observed that a significant number of Sophomores,Juniors, and Senior students encounter challenges when tackling a variety of problems, spanningfrom solving 3rd or 4th degree polynomials to basic cross products and determining
executive project management training and PMP exam prep courses for over 100 senior managers at Consolidated Contractors Company (CCIC) in Dubai and other major companies in Kuwait since 2004. He published numerous journal papers and research reports in the areas of airport engineering, sustainability, green construction, deconstruction, etc. Page 12.1439.1© American Society for Engineering Education, 2007 The Innovative Development of Sustainable Technologies in Undergraduate Programs: Case Study – Bio-Diesel ProjectABSTRACTSustainable principles and the so-called “green” technologies apply to
listproc, and the Association ofTechnology, Management, and Applied Engineering (ATMAE)’s [4] databases to identified theuniversities in the United States with a program in engineering technology including industrialengineering technology, manufacturing engineering technology, and industrial technology. Also,the request for participation was sent twice to the ASEE’s mailing list to reach out to thoseprograms whose name might not be mentioned in those databases. The authors compiled a list ofall institutions and contact information of individual faculty members and/or department chairs.The authors invited the identified faculty members to participate in the research by contactingthem via e-mail or personal telephone conversation. Upon their
.• Students are rewarded with specific software course designations on the official college transcript, which they view as an effective marketing tool when applying for employment.• Additionally, some students participating in these courses informally indicate that this type of self-paced learning is preferred over conventional methods of instruction.• All courses should have weekly meetings. Initially, some of the courses involved biweekly meetings; however, the author has come to believe that weekly meetings are conducive to continuity.SummaryThe author offered a series of one- and two-credit special topics software coursesfor students in the Civil Engineering Technology Program at Fairmont StateCollege. To date the courses
An Internship Program that Promotes Student Success in Engineering and Engineering Technology AB Shafaye and Rafic Bachnak School of Science, Engineering, and Technology Penn State HarrisburgAbstract - STEM education has been given much attention in recent years. A major concern,however, is that success rates in U.S. colleges and universities are still low. While a number offactors affect student success, active learning approaches such as research and internshipexperiences, hands-on experimentation and projects, challenged-based instruction and problemsolving, and peer
established in Tech Tally of: technology and society, design, products and systems, andtechnology core concepts and the ITEA technology topic areas was created. To balance the needto accommodate the diverse requirements of curriculum committees on varied campuses, theframework offers flexibility to faculty in configuring courses within each proposed model whilestill accomplishing the intent of the standards. This framework is intended to form theorganizational infrastructure for creating a repository of course materials and an onlinecommunity for course developers and instructors.OverviewTechnology affects nearly every aspect of our lives, and informed citizens need an understandingof what technology is, how it works, how it is created, how it shapes
Bologna Process in their ownsystem of higher education. Their application should contain information on how they willimplement the principles and objectives of the declaration.” [13]Many official documents were issued by the Russian Ministry of Education during the years2000-2003 to support the above statement of the Bologna Process [10-11]. Special attention waspaid to developing a system of on-line education [11] as a tool for Lifelong learning andproviding access to a diversity of programs; this included opportunities for multidisciplinarystudies through the ability to use new information technologies [9]. That’s why for the past fiveyears the Russian Higher Education Ministry has provided policies and financial support aimedat engaging
distance education Page 5.61.1programs in the fall of 1995.Two driving forces have led to the drastic increase in the area of distance education. First, therehas been a technological revolution in the last decade. Today’s personal computers have asmuch computing power as large mainframes had just ten years ago (Baird & Monson, 1992).The following testimony given before the U.S. Senate Committee on Labor and HumanResources on April 15, 1997 illustrates this technological evolution:One of the hardest things for most people to understand is the effect of information technology’sexponential rate of improvement. For the last four decades, the speed
classrooms (three wired for distanceeducation) and 21 laboratories, with many spaces designed for interaction and collaborationbetween departments, will open in 2005. Additional information on the new facility and theprograms provided by the EWU School of Computing and Engineering Sciences can be found athttp://www.ewu.edu/newtech/.Significance of the SET ProgramThe significance of the EWU Engineering Technology and Multimedia Design Department’sSET Program derives from three interrelated elements: • SET is an emerging area within the technology and engineering arena and a niche exists for training and employment. • A best-practices approach integrating “experience-based learning” defined as both service learning and industry
becoming a high technology leader.STEP Program’s Role:STEP is all about forming mutually beneficial partnerships with an eye towards the long termcollective success and growth of the region. STEP is a people-centered, community buildingprogram aimed at strengthening the quantity and quality of our technologically skilledworkforce. STEP causes the educational system at all levels to interact with high technologyindustry, business and government for the benefit of students, families and teachers. STEP’spurpose is not to reinvent the many resources available in the community, but rather to connectthem together to help make them more effective. STEP serves as a repository of information anda catalyst for action.STEP’s role is to make teachers
Technology-Enabled Nurturing of Creativity and Innovation: A Specific Illustration from an Undergraduate Engineering Physics CourseAbstractThere is general agreement that creativity and innovation are desirable traits in the toolbox of21st century engineers, as well as in the future workforce in general. However, there is a dearthof exemplars, pedagogical models, or best practices to be implemented in undergraduateengineering education to develop and nurture those talents.In this paper, we use a specific example of a classroom activity from a course designed to helpbridge the transition from learning the fundamental principles of engineering physics inintroductory courses to being able to creatively and
result, further research is needed to understand the impact of online learning onlaboratory-based engineering courses. Online learning has numerous benefits, including the convenience and flexibility itprovides. However, it has also raised concerns about the disparities faced by minority studentswho lack access to technology, experience social isolation, face technical difficulties, and lackadequate support. These inequalities have been an ongoing issue for over two decades and havebeen further exacerbated by the shift to emergency online learning brought on by the COVID-19pandemic. This is particularly important for minority students as the courses in Engineeringprograms are often prerequisites for further coursework and professional
envisioned amore human industrial system that considered the realities of people living in poverty. Thesetechnologies enabled more sustainable rural livelihoods and exposed urban-rural discrepancies.Polak argued the people living in poverty cannot access markets in the modern industrial system,noting billions of people have never seen a Wal-Mart.4 Polak challenged corporations to developradically affordable products for emerging consumer markets. Affordable technology offered anew vision for technological systems by challenging designers to develop products that peopleliving in poverty actually need.3 For Polak, an innovation can be sustainable if and only if peopleliving in poverty purchase the product or service directly. Schumacher emphasized
Accreditation including ABET. ©American Society for Engineering Education, 2024 Advancing 2-Year Degree Students Towards a Bachelor's Degree in Engineering Technology: A Pilot StudyAbstract:The majority of the students who complete a 2-year degree program often find themselvesperplexed, and uncertain about their chosen major and potential career paths. This uncertainty ispartly due to their limited exposure to the local industrial landscape, which hinders them frommaking informed decisions about their future. Consequently, these students may encounterdifficulties as they strive to transition from the confines of a smaller community college to alarger, more comprehensive institution, especially when aiming to
obtaining his PhD.Dr. Ing. Jorge Martin-Gutierrez, Universidad de La Laguna Dr. Jorge Mart´ın-Guti´errez is director of the Virtual Teaching Unit of University of La Laguna and Assistant Professor of Graphics Engineering. Jorges research has focused on improving spatial skills means augmented reality technology. His approach explores the use of information visualization tools to provide new methods of learning. Their interest is the development of teaching applications based on emerging technologies as well as motivation and usability studies focusing his work on developing computer applications. ˜Prof. Beatriz Anorbe-Diaz, Universidad de La Laguna Professor at the University of La Laguna, Department of
AC 2008-2316: TECHNOLOGY LITERACY AS A PATH TO “ENGINEERINGSOLUTIONS IN A GLOBAL AND SOCIETAL CONTEXT”David Ollis, North Carolina State University DAVID F. OLLIS is Distinguished Professor of Chemical and Biomolecular Engineering at North Carolina State University. He has recently co-authored, with John Krupczak, Hope College, a NSF-sponsored workshop report titled "Improving the Technological Literacy of Undergraduates: Identifying the Research Issues,”, 2005, and was founding Program Chair for Technological Literacy Constituent Committee, ASEE 2006 and 2007. Page 13.1191.1© American Society for
the emerging technological needs ofeducation and the manufacturing/engineering industry [2]. Throughout the curriculumdevelopment process, these modules have been evaluated by students and local highschool and college instructors and their evaluations will be discussed.2. Existing Manufacturing Technology Curriculum ResearchFigure 1 shows the overall activities of the PSCME include working with variouscommunity and technical colleges in WA State to gather and review the existing curricula.To establish baseline enrollment data, the PSCME program targeted colleges with theState Board of Community and Technical Colleges (SBCTC) Classification ofInstructional Program (CIP) code of 480501, which is defined as a machinist or computeraided machining
information to use is their criteria.In order to satisfy the New Criteria for Accrediting Engineering Technology Programs (TC-2K)regarding continuous improvement, only one of the seven criteria areas must be addressed as amatter of priority; Assessment of the Program (criterion 6). It is identified because this criterionspecifically requires continuous improvement as a component for evaluation by ABETevaluators. However, in the true spirit of the document, continuous improvement should also beapplied toward all seven criteria: Students and Graduates (criterion 1), Program Characteristics(criterion 2), Faculty (criterion 3), Facilities (criterion 4), Institutional and External Support(criterion 5), and Individual Program Criteria (criterion 7). This
AC 2008-547: IMPLEMENTATION OF TABLET PC TECHNOLOGY IN ME 2024 -ENGINEERING DESIGN AND ECONOMICS AT VIRGINIA TECHDewey Spangler, Virginia Western Community College Dewey Spangler is an instructor in the department of Mechanical Engineering at Virginia Tech. Mr. Spangler holds an M.S. in Civil Engineering and a P.E. license in the Commonwealth of Virginia. He has served as faculty advisor to over two hundred mechanical engineering sophomores in the area of product design and has taught over the last nine years in the areas of physics, engineering mechanics, object oriented programming, geographical information systems, engineering economics, project management, product design, and contract law. His
. Page 25.1065.1 c American Society for Engineering Education, 2012 Problem-Based Learning in a Pre-Service Technology and Engineering Education CourseAbstractProblem-based learning (PBL) is an instructional approach whereby students learn problem-solving, critical thinking and teamwork skills by collaboratively solving complex real-worldproblems. Research shows that PBL improves student knowledge and retention, motivation,problem-solving skills, and the ability to skillfully apply knowledge in new situations. Whileused extensively in medical schools since the 1970s. PBL is emerging as an exciting alternativeto traditional lecture-based methods in engineering and technology
technologically literate society is considered to be one of the main goals ofprimary and secondary education. At the heart of technological literacy would be a knowledge ofthe nature of engineering (NOE) upon which content knowledge in engineering/technology couldbe built. Technological literacy of this nature cannot be developed among elementary schoolstudents, however, without dedicated and well-informed teachers. That raises the question: Whatshould teachers know to promote technological literacy and spread it in their students’ hearts andminds? We believe that an appropriate view of the NOE can play a role in the development ofengineering and technology literacy that is similar to the role that an appropriate view of thenature of science (NOS) plays
Magnetic Properties 16 Microelectronics Magnetic PropertiesThe modules are designed to be portable to other faculty and universities. To accomplish this, ahost of resources have been developed for each module. These are detailed in Figure 1. Background Information on the Technology for Faculty & Students Open Ended Team Project Homework Problem and Solutions Related to the Project 6-8 Class Reading Instructor Active In- Periods Learning Notes & Demos & Review Class Related to Objectives Notes
Society forEngineering Education. Page 11.1071.2 Recruitment in Engineering and Technology Programs Integrating Home Schoolers, Women and International StudentsAbstractThere is an increasing need for a technically literate workforce for the United States to maintainits leadership in today’s interconnected global economy. Unfortunately, although the demand forengineering and technology graduates has increased the number of graduates has not increasedfor the last fifteen years. Because of phenomenon growth in emerging technologies andeconomic globalization it is rewarding to focus our whole hearted effort to recruitment. That iswhy the author has
are written for undergraduate programs. On theother hand emerging technologies require the use of advanced precise instruments. Thus, itbecomes the responsibility of academic community to meet the demand of new technologies bydeveloping and offering proper advanced instrumentation courses at graduate level. This articleexplains the content of a new advanced instrumentation course offered to graduate students inthe Department of Engineering Technology at the University of Memphis (UM). It is alsounder consideration at Northern Kentucky University (NKU). The development of the coursematerials, the required instruments and the method of delivery, will be the main topics of thisarticle.IntroductionThe Department of Engineering Technology at the
technology and science.IntroductionEngineering and engineering technology have always been part of a larger set commonlyreferred to as technology but science is not entirely in the sphere of the technology set.There is perhaps not one single word to describe the union of technology and science.The fields of engineering, engineering technology, and science, however, have long beenconsidered to be part of a continuum or a spectrum ¹.The educators who teach engineering, engineering technology and science, therefore,attempt to cover the overlapping concepts, principles and applications in this continuum.A somewhat clear distinction has emerged over the years between the roles,responsibilities and performance qualifications of science and engineering